GET-UP BAT | GPCR Exploitation To Unlock the Power of Brown/Beige Adipose Tissue

Summary
Hundreds of millions of people suffer from obesity and diabetes worldwide. These diseases diminish both life quality and expectancy and new treatment strategies are desperately needed. One possible approach is to target the calorie-burning and glucose-consuming functions of brown and beige adipose tissue (B/BAT). Previous attempts to harness the therapeutic potential of B/BAT have largely focused on the β-adrenergic class of G protein-coupled receptors (GCPRs). Unfortunately, these methods are hindered by adverse cardiovascular side effects linked to adrenergic activation. Therefore, uncovering non-adrenergic alternatives to exploit B/BAT for treating metabolic disease holds the potential for enormous societal and economic benefit.

Here, we propose the activation of one such non-adrenergic GPCR on B/BAT as a means to treat obesity and diabetes. We identified this GPCR from a screen of B/BAT receptors performed in my ERC Starting Grant project, aCROBAT. We found that treating brown adipose cells with the peptide ligand for this GPCR increased oxygen consumption. We recognized the therapeutic potential after observing that ligand administration in vivo lowered bodyweight and improved insulin sensitivity in obese mice. However, the resources required to develop this discovery into a tangible innovation extend beyond the scope of aCROBAT.

Consequently, I’m applying for an ERC PoC grant for critical support to take the initial steps to commercial application. Specifically, we seek to strengthen our IP position by developing patentable, longer-lived analogues of the ligand. Importantly, we will test these lead compounds head-to-head and in combination with current treatment options. We have assembled a team of experts to address key aspects from peptide design and pharmacology to IPR strategy and commercial development. Combined with our validated in vitro and in vivo testing platforms, we are ideally poised to maximize innovation potential.
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More information & hyperlinks
Web resources: https://cordis.europa.eu/project/id/768783
Start date: 01-10-2017
End date: 31-08-2018
Total budget - Public funding: 149 986,00 Euro - 149 986,00 Euro
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Original description

Hundreds of millions of people suffer from obesity and diabetes worldwide. These diseases diminish both life quality and expectancy and new treatment strategies are desperately needed. One possible approach is to target the calorie-burning and glucose-consuming functions of brown and beige adipose tissue (B/BAT). Previous attempts to harness the therapeutic potential of B/BAT have largely focused on the β-adrenergic class of G protein-coupled receptors (GCPRs). Unfortunately, these methods are hindered by adverse cardiovascular side effects linked to adrenergic activation. Therefore, uncovering non-adrenergic alternatives to exploit B/BAT for treating metabolic disease holds the potential for enormous societal and economic benefit.

Here, we propose the activation of one such non-adrenergic GPCR on B/BAT as a means to treat obesity and diabetes. We identified this GPCR from a screen of B/BAT receptors performed in my ERC Starting Grant project, aCROBAT. We found that treating brown adipose cells with the peptide ligand for this GPCR increased oxygen consumption. We recognized the therapeutic potential after observing that ligand administration in vivo lowered bodyweight and improved insulin sensitivity in obese mice. However, the resources required to develop this discovery into a tangible innovation extend beyond the scope of aCROBAT.

Consequently, I’m applying for an ERC PoC grant for critical support to take the initial steps to commercial application. Specifically, we seek to strengthen our IP position by developing patentable, longer-lived analogues of the ligand. Importantly, we will test these lead compounds head-to-head and in combination with current treatment options. We have assembled a team of experts to address key aspects from peptide design and pharmacology to IPR strategy and commercial development. Combined with our validated in vitro and in vivo testing platforms, we are ideally poised to maximize innovation potential.

Status

CLOSED

Call topic

ERC-2017-PoC

Update Date

27-04-2024
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Horizon 2020
H2020-EU.1. EXCELLENT SCIENCE
H2020-EU.1.1. EXCELLENT SCIENCE - European Research Council (ERC)
ERC-2017
ERC-2017-PoC